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Quantum measurements in fundamental physics: A user’s manual, by Jacob Beckey, Daniel Carney, Giacomo Marocco

SciPost Quantum
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⚡ Quantum Brief
Physicists from JILA, LBNL, and UCB published a comprehensive framework for linear quantum detectors in April 2026, unifying theory for dark matter haloscopes, gravitational wave detectors, and mechanical sensors. The paper provides step-by-step methods to model signal coupling, noise spectra, and detection sensitivities, emphasizing quantum vacuum and thermal noise as fundamental limits in high-energy physics experiments. Authors demonstrate how to calculate signal-to-noise ratios for ultra-precise measurements, offering tools to optimize detector performance in searches for elusive phenomena like dark matter and gravitational waves. Advanced quantum techniques—squeezing, non-demolition measurements, and entanglement—are highlighted as active strategies to surpass classical noise limits in current and next-generation experiments. Funded by NSF and DOE, the work bridges theory and application, equipping researchers with practical guidelines to enhance quantum sensing technologies in fundamental physics.
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SciPost Physics Reviews Home Authoring Refereeing Submit a manuscript About Quantum measurements in fundamental physics: A user’s manual Jacob Beckey, Daniel Carney, Giacomo Marocco SciPost Phys. Rev. 2 (2026) · published 17 April 2026 doi: 10.21468/SciPostPhysRev.2 pdf BiBTeX RIS Submissions/Reports Abstract We give a systematic theoretical treatment of linear quantum detectors used in modern high energy physics experiments, including dark matter cavity haloscopes, gravitational wave detectors, and impulsive mechanical sensors. We show how to derive the coupling of signals of interest to these devices, and how to calculate noise spectra, signal-to-noise ratios, and detection sensitivities. We emphasize the role of quantum vacuum and thermal noise in these systems. Finally, we review ways in which advanced quantum techniques—squeezing, non-demolition measurements, and entanglement—can be or currently are used to enhance these searches. × TY - JOURPB - SciPost FoundationDO - 10.21468/SciPostPhysRev.2TI - Quantum measurements in fundamental physics: A user’s manualPY - 2026/04/17UR - https://scipost.org/SciPostPhysRev.2JF - SciPost Physics ReviewsJA - SciPost Phys. Rev.SP - 2A1 - Beckey, JacobAU - Carney, DanielAU - Marocco, GiacomoAB - We give a systematic theoretical treatment of linear quantum detectors used in modern high energy physics experiments, including dark matter cavity haloscopes, gravitational wave detectors, and impulsive mechanical sensors. We show how to derive the coupling of signals of interest to these devices, and how to calculate noise spectra, signal-to-noise ratios, and detection sensitivities. We emphasize the role of quantum vacuum and thermal noise in these systems. Finally, we review ways in which advanced quantum techniques—squeezing, non-demolition measurements, and entanglement—can be or currently are used to enhance these searches.ER - × @Article{10.21468/SciPostPhysRev.2, title={{Quantum measurements in fundamental physics: A user’s manual}}, author={Jacob Beckey and Daniel Carney and Giacomo Marocco}, journal={SciPost Phys. Rev.}, pages={2}, year={2026}, publisher={SciPost}, doi={10.21468/SciPostPhysRev.2}, url={https://scipost.org/10.21468/SciPostPhysRev.2},} Ontology / Topics See full Ontology or Topics database. quantum sensing Authors / Affiliations: mappings to Contributors and Organizations See all Organizations. 1 2 3 Jacob Beckey, 2 Daniel Carney, 2 Giacomo Marocco 1 Joint Institute for Laboratory Astrophysics [JILA] 2 Lawrence Berkeley National Laboratory [LBNL] 3 University of Colorado Boulder [UCB] Funders for the research work leading to this publication National Science Foundation [NSF] United States Department of Energy [DOE]

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